Automatic bidirectional integrated plug cable anti-dislocation structure

Abstract

The utility model relates to the field of plugs, in particular to an automatic bidirectional integrated plug cable anti-dislocation structure, and solves the technical problems that a plurality of groups of bidirectional plugs used between two electrical and digital devices are easy to deform, tear and cut off due to cross winding and dislocation of cables; according to the technical scheme, the automatic bidirectional integrated plug cable anti-dislocation structure comprises a bidirectional plug body, a top retaining ring, a side retaining ring, a connecting frame, a fixing assembly and a power line binding assembly; according to the utility model, the three groups of different bidirectional plugs are fastened and integrated together through the triangular frame structure formed by the top retaining ring, the side retaining rings and the connecting frames, and the cables are automatically separated from each other through the plurality of groups of triangular frame structures which move and are arranged along the cables of the integrated bidirectional plugs, so that the cables cannot be crossed, wound and staggered with each other; the problem that a plurality of groups of bidirectional plugs used between two electrical and digital devices are easy to deform, tear and cut off due to cross winding and dislocation of cables is solved.

Description

Technical Field

[0001] The utility model relates to the field of plugs, in particular to an automatic two-way integrated plug cable anti-displacement structure. Background Art

[0002] Two-way plugs are commonly used for signal lines on electrical and digital devices. It is a cable with different or the same connectors at both ends, which connects two electrical devices respectively to transmit signals and data. Such two-way plugs used between two electrical and digital devices often exist in multiple groups, which are respectively used to transmit different signals and data.

[0003] Because there are multiple groups of two-way plugs used between two electrical and digital devices installed and used simultaneously, it is easy for the cables to cross and entangle with each other and be misaligned. Once this situation occurs, as long as the electrical and digital devices move slightly, it may cause problems such as pulling deformation, tearing, and truncation of the plug cables.

[0004] Therefore, aiming at the problem that the cables between multiple groups of two-way plugs used between the above two electrical and digital devices are prone to cross and entangle with each other and be misaligned, resulting in cable deformation, tearing, and truncation, an integrated two-way plug cable can be designed. Through the anti-displacement structure on the cable, multiple groups of two-way plug cables can be automatically arranged, grouped, and clamped, reducing the situation of crossing and misalignment of multiple two-way plug cables between two electrical and digital devices. Summary of the Utility Model

[0005] In order to overcome the problem that multiple groups of two-way plugs used between two electrical and digital devices are prone to deformation, tearing, and truncation due to the cross-winding and misalignment of cables.

[0006] The technical solution of the utility model is: an automatic two-way integrated plug cable anti-displacement structure, which includes a two-way plug body, a top buckle ring, side buckle rings, a connecting frame, a fixing component, and a power cord binding component; the top buckle ring and two side buckle rings are arranged at the three corner points of an equilateral triangle. Connecting frames are fixedly connected between the top buckle ring and the side buckle rings. The top buckle ring, the side buckle rings, and the connecting frames form a triangular frame. The space between the side buckle rings is an open structure. Both the side of the top buckle ring facing the side buckle rings and the opposite side of the side buckle rings have openings. The cables of three groups of two-way plug bodies are respectively clamped and integrated in the top buckle ring and the side buckle rings. A number of triangular frames are arranged at equal intervals on the integrated two-way plug body. A fixing component that can be flipped and moved is installed on the connecting frame, and the fixing component is adhesively fixed on the cables of the integrated two-way plug body. A power cord binding component is inserted and installed on the outer walls of the top buckle ring, the side buckle rings, and the connecting frames.

[0007] Preferably, three groups of different two-way plug cables are respectively clamped into the openings on the top snap ring and the side snap ring, so that the cables are distributed at three corner positions and are uniformly integrated into the triangular frame structure formed by the top snap ring, the side snap ring and the connecting frame. The top snap rings and side snap rings on multiple triangular frames move along the integrated two-way plug cables. The cables that are mutually attached, crossed or misaligned gradually and automatically separate from each other from one end to the other end. After moving to a suitable position, through the fixing component, each triangular frame is adhesively fixed to the integrated two-way plug cable. Then, the power cord binding component is installed on the top snap ring or the side snap ring, and the power cord of the electrical equipment passes through each power cord binding component, is on one side of the triangular frame, and is separated from the integrated two-way plug cable.

[0008] Preferably, the top snap ring, the side snap ring and the connecting frame are all made of flexible plastic materials. Arc-shaped silica gel rings are heat-melted and connected to the inner walls of the top snap ring and the side snap ring. The silica gel rings wrap around the cable outer skin of the two-way plug body. The outer diameters and inner diameters of the top snap ring and the side snap ring are the same, and the openings on the rings can be expanded and contracted and deformed. The cables of the two-way plug body are clamped in from here.

[0009] Preferably, the surface of the connecting frame is provided with a notch that penetrates into the interior of the triangular frame. The opening width on the top snap ring and the side snap ring is smaller than the diameter of the cable of the two-way plug body. The open structure width between the side snap rings is smaller than the diameter of the cable of the two-way plug body. When the cable of the two-way plug body extends into the interior of the triangular frame and is clamped into the openings of the top snap ring and the side snap ring, the two sides of the opening are pressed and expanded, and after the cable enters, it shrinks and returns.

[0010] Preferably, the fixing component includes a rotating frame; one end of the outer wall of the connecting frame close to the top snap ring is fixedly connected with a rotating shaft, the rotating frame has a shaft hole and the shaft hole is sleeved on the rotating shaft. The rotating frame is made of hard plastic material. The rotating frame rotates around the rotating shaft and extends outwards from the connecting frame, so that the plastic sheet is close to the cables of the two-way plug body on both sides of the triangular frame.

[0011] Preferably, the fixing component further includes a plastic sheet and an adhesive sheet; the plastic sheet is made of flexible thin plastic material and is fixedly connected to the rotating frame. The adhesive sheet is arranged on the surface of the plastic sheet. The plastic sheet is wound around the cable of the two-way plug body and is adhesively fixed through the adhesive sheet, so that the triangular frame cannot move along the cable of the two-way plug body.

[0012] Preferably, the power cord binding component includes a wire-passing ring and a card seat; the wire-passing ring is a plastic circular ring structure with an inner diameter larger than the diameter of the power cord. One side of the outer wall of the wire-passing ring is fixedly connected with an arc-shaped card seat adapted to the outer walls of the top snap ring and the side snap ring. When the wire-passing ring is installed, the card seat is made to lean against the outer wall of the top snap ring or the outer wall of the side snap ring. The specifications of the wire-passing ring can be selected and customized to be adapted to the power cord of the electrical equipment of the two-way plug body.

[0013] Preferably, the power cord binding component further includes a clamping hole; the clamping hole is formed on the card seat, and clamping heads that are adapted to the clamping hole and have a pier at the end are fixedly connected to the outer walls of the top snap ring and the side snap ring. The clamping heads are inserted into the clamping hole, so that the pier is extruded from the clamping hole, and the wire threading ring is fixed to the triangular frame by the limit of the pier.

[0014] Advantages of the utility model:

[0015] 1. The triangular frame structure composed of the top snap ring, the side snap ring and the connecting frame clamps and integrates three groups of different two-way plugs together, and uses multiple groups of triangular frame structures that move and arrange along the integrated two-way plug cable to gradually and automatically separate the cables from one end to the other end, preventing them from crossing, winding and misaligning with each other, which is convenient for cable arrangement and reduces the situation of cable pulling and breaking due to misalignment and winding;

[0016] 2. According to the usage needs, a power cord binding component can be installed on the triangular frame composed of the top snap ring, the side snap ring and the connecting frame to connect the power cords between two electrical devices, avoiding the misalignment and winding of the power cord and the integrated two-way plug cable;

[0017] 3. The adhesive film can be used to stick and fix the triangular frame that has moved to a suitable position on the integrated two-way plug cable, preventing it from moving along the cable and causing the failure of anti-misalignment of the local cable. Description of the drawings

[0018] Figure 1 Shown is the first three-dimensional structure schematic diagram of the installation state of the automatic two-way integrated plug cable anti-misalignment structure of the utility model;

[0019] Figure 2 Shown is the second three-dimensional structure schematic diagram of the installation state of the automatic two-way integrated plug cable anti-misalignment structure of the utility model;

[0020] Figure 3 Shown is the first three-dimensional structure schematic diagram of the automatic two-way integrated plug cable anti-misalignment structure of the utility model;

[0021] Figure 4 Shown is the second three-dimensional structure schematic diagram of the automatic two-way integrated plug cable anti-misalignment structure of the utility model;

[0022] Figure 5 Shown is the three-dimensional structure schematic diagram of the top snap ring, the side snap ring and the connecting frame of the automatic two-way integrated plug cable anti-misalignment structure of the utility model;

[0023] Figure 6 Shown is the three-dimensional structure schematic diagram of the fixing component of the automatic two-way integrated plug cable anti-misalignment structure of the utility model;

[0024] Figure 7 The figure shows a three-dimensional structural schematic diagram of a power cord binding component of an anti-misalignment structure for an automated two-way integrated plug cable of the present utility model.

[0025] Explanation of reference numerals: 1, two-way plug body; 2, top snap ring; 3, side snap ring; 4, connecting frame; 5, fixing component; 6, power cord binding component; 7, rotating shaft; 8, clamping head; 501, rotating frame; 502, plastic sheet; 503, adhesive sheet; 601, wire threading ring; 602, card seat; 603, clamping hole. Specific embodiments

[0026] The present utility model will be further described below in conjunction with the accompanying drawings and embodiments.

[0027] Please refer to Figures 1-4 , the present utility model provides an embodiment: an anti-misalignment structure for an automated two-way integrated plug cable, including a two-way plug body 1, a top snap ring 2, side snap rings 3, a connecting frame 4, a fixing component 5, and a power cord binding component 6; the top snap ring 2 and the two side snap rings 3 are arranged at the three corner points of an equilateral triangle, and connecting frames 4 are fixedly connected between the top snap ring 2 and the side snap rings 3. The top snap ring 2, the side snap rings 3, and the connecting frames 4 form a triangular frame. The space between the side snap rings 3 is an open structure. Both the side of the top snap ring 2 facing the side snap rings 3 and the opposite side of the side snap rings 3 have openings. The cables of the three groups of two-way plug bodies 1 are respectively clamped and integrated in the top snap ring 2 and the side snap rings 3. A number of triangular frames are arranged at equal intervals on the integrated two-way plug body 1. A fixing component 5 that can be flipped and moved is installed on the connecting frame 4, and the fixing component 5 is adhesively fixed on the cable of the integrated two-way plug body 1. A power cord binding component 6 is inserted and installed on the outer walls of the top snap ring 2, the side snap rings 3, and the connecting frames 4. The cables of the three different two-way plugs are respectively inserted through the openings on the top snap ring 2 and the side snap rings 3, so that the cables are distributed at the three corner points and are uniformly integrated in the triangular frame structure formed by the top snap ring 2, the side snap rings 3, and the connecting frames 4. The top snap rings 2 and the side snap rings 3 on multiple triangular frames move along the integrated two-way plug cable, and the cables that are mutually attached, crossed, or misaligned gradually automatically separate from one end to the other end. After moving to a suitable position, through the fixing component 5, each triangular frame is adhesively fixed to the integrated two-way plug cable, and then the power cord binding component 6 is installed on the top snap ring 2 or the side snap ring 3, allowing the power cord of the electrical device to pass through each power cord binding component 6 and be separated from the integrated two-way plug cable on one side of the triangular frame.

[0028] Please refer to Figures 3-5, in this embodiment, the top snap ring 2, the side snap ring 3 and the connecting frame 4 are all made of flexible plastic materials. Arc-shaped silicone rubber rings are heat-melted and connected to the inner walls of the top snap ring 2 and the side snap ring 3. The silicone rubber rings wrap around the cable outer skin of the two-way plug body 1. Notches penetrating into the interior of the triangular frame are formed on the surface of the connecting frame 4. The opening widths on the top snap ring 2 and the side snap ring 3 are smaller than the cable diameter of the two-way plug body 1. The width of the open structure between the side snap rings 3 is smaller than the cable diameter of the two-way plug body 1. The outer diameters and inner diameters of the top snap ring 2 and the side snap ring 3 are the same. The openings on the rings can be expanded and contracted and deformed. The cable of the two-way plug body 1 is snapped in from here. The cable of the two-way plug body 1 extends into the interior of the triangular frame from the open structure. When the cable is snapped into the openings of the top snap ring 2 and the side snap ring 3, the two sides of the opening are pressed and expanded. After the cable enters, it contracts and returns.

[0029] Please refer to Figures 5-6 , in this embodiment, the fixing component 5 includes a rotating frame 501; one end of the outer wall of the connecting frame 4 close to the top snap ring 2 is fixedly connected with a rotating shaft 7. The rotating frame 501 has a shaft hole and the shaft hole is sleeved on the rotating shaft 7. The rotating frame 501 is made of hard plastic material. The fixing component 5 further includes a plastic sheet 502 and an adhesive sheet 503; the plastic sheet 502 is a flexible thin plastic material and is fixedly connected to the rotating frame 501. The adhesive sheet 503 is arranged on the surface of the plastic sheet 502. The rotating frame 501 rotates around the rotating shaft 7 and extends outwards from the connecting frame 4, making the plastic sheet 502 close to the cables of the two-way plug body 1 on both sides of the triangular frame. The plastic sheet 502 is wound around the cables of the two-way plug body 1 and fixedly adhered through the adhesive sheet 503, so that the triangular frame cannot move along the cables of the two-way plug body 1.

[0030] Please refer to Figure 5 , 7 , in this embodiment, the power cord binding component 6 includes a threading ring 601 and a card seat 602; the threading ring 601 is a plastic circular ring structure with an inner diameter larger than the diameter of the power cord. One side of the outer wall of the threading ring 601 is fixedly connected with an arc-shaped card seat 602 adapted to the outer walls of the top snap ring 2 and the side snap ring 3. The power cord binding component 6 further includes a fixing hole 603; the fixing hole 603 is formed on the card seat 602. Fixing heads 8 adapted to the fixing hole 603 and having a head at the end are fixedly connected to the outer walls of the top snap ring 2 and the side snap ring 3. When the threading ring 601 is installed, the card seat 602 is made to abut against the outer wall of the top snap ring 2 or the outer wall of the side snap ring 3. The specifications of the threading ring 601 can be selected and customized to be adapted to the power cord of the electrical equipment of the two-way plug body 1. The fixing head 8 is inserted into the fixing hole 603, and the head is extruded from the fixing hole 603. The threading ring 601 is fixed to the triangular frame through the head limit.

[0031] When working, the user closes one end of the two-way plug body 1 with three or fewer strands, and then buckles the triangular frame formed by the top buckle ring 2, the side buckle ring 3 and the connecting frame 4 thereon, so that the cable of the two-way plug body 1 extends into the triangular frame from the open structure, and then through the pressure expansion on both sides of the opening, the cable is successively clamped into the top buckle ring 2 and the side buckle ring 3;

[0032] In the above manner, several triangular frames are successively installed on the two-way plug body 1, and then each triangular frame moves from the installation end to the other end until the triangular frames are equidistantly arranged. During the movement, the cables of each two-way plug body 1 are gradually automatically separated under the edge limiting action of the top buckle ring 2 and the side buckle ring 3;

[0033] Then rotate the rotating frame 501 to make the plastic sheet 502 extend outwards and wind around the cable of the two-way plug body 1, and use the adhesive sheet 503 to stick and fix the triangular frame on the cable and cannot move;

[0034] Next, on each triangular frame, select the top buckle ring 2 or the side buckle ring 3 to install the power cord binding component 6, make the card seat 602 lean against the outer wall of the top buckle ring 2 or the outer wall of the side buckle ring 3, insert the clamping head 8 into the clamping hole 603, fix the wire threading ring 601 to the triangular frame, and then pass the power cord through the wire threading ring 601 in sequence to connect the power supply device.

[0035] Through the above steps, the triangular frame structure formed by the top buckle ring 2, the side buckle ring 3 and the connecting frame 4 clamps and integrates three different two-way plug bodies 1 together, and uses multiple triangular frame structures that move and arrange along the integrated two-way plug cable to automatically separate the cables from each other, preventing them from crossing, winding and misaligning with each other, facilitating cable arrangement, and reducing the situation of cable pulling and breaking due to misaligned winding, so as to solve the problem that the cables between multiple two-way plugs used between two electrical and digital devices are prone to deformation, tearing and truncation due to cable crossing, winding and misalignment.

[0036] The above has described the embodiments of the present invention in detail with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments, and various changes can be made without departing from the gist of the present invention within the scope of knowledge possessed by those skilled in the art.

Claims

1. An automated bidirectional integrated plug cable anti-misalignment structure, comprising a bidirectional plug body (1); characterized in that: The device also comprises a top buckle ring (2), a side buckle ring (3), a connecting frame (4), a fixing component (5), and a power cord binding component (6); the top buckle ring (2) and the two side buckle rings (3) are arranged at the three corner points of an equilateral triangle, the top buckle ring (2) and the side buckle ring (3) are fixedly connected with the connecting frame (4), the top buckle ring (2), the side buckle ring (3) and the connecting frame (4) form a triangular frame, the side buckle rings (3) are open, the top buckle ring (2) faces one side of the side buckle ring (3) and the side buckle The ring (3) has an opening on one side opposite to the other. The cables of the three groups of two-way plug bodies (1) are respectively snap-fitted and integrated in the top buckle ring (2) and the side buckle ring (3). A plurality of triangular frames are arranged equidistantly on the integrated two-way plug body (1). A flip-movable fixing component (5) is installed on the connecting frame (4). The fixing component (5) is adhesively fixed to the cables of the integrated two-way plug body (1). A power cord binding component (6) is plugged and installed on the outer walls of the top buckle ring (2), the side buckle ring (3) and the connecting frame (4).

2. The automatic bidirectional integrated plug cable anti-dislocation structure according to claim 1 is characterized in that: The top buckle ring (2), the side buckle ring (3) and the connecting frame (4) are all made of flexible plastic materials. The inner walls of the top buckle ring (2) and the side buckle ring (3) are hot-melt-connected with arc-shaped silicone rings, which are wrapped around the cable sheath of the two-way plug body (1).

3. The automatic bidirectional integrated plug cable anti-dislocation structure according to claim 1 is characterized by: The surface of the connecting frame (4) is provided with a slot which passes through the inside of the triangular frame, the opening widths on the top buckle ring (2) and the side buckle ring (3) are smaller than the cable diameter of the bidirectional plug body (1), and the width of the open structure between the side buckle rings (3) is smaller than the cable diameter of the bidirectional plug body (1).

4. The automatic bidirectional integrated plug cable anti-dislocation structure according to claim 1 is characterized by: The fixing assembly (5) comprises a rotating frame (501); an end of the outer wall of the connecting frame (4) close to the top buckle ring (2) is fixedly connected to a rotating shaft (7); the rotating frame (501) has an axial hole and the axial hole is sleeved on the rotating shaft (7); the rotating frame (501) is made of hard plastic material.

5. The automatic bidirectional integrated plug cable anti-dislocation structure according to claim 4 is characterized in that: The fixing component (5) further comprises a plastic sheet (502) and an adhesive sheet (503); the plastic sheet (502) is made of a flexible thin plastic material and is fixedly connected to the rotating frame (501); and an adhesive sheet (503) is arranged on the surface of the plastic sheet (502).

6. The automatic bidirectional integrated plug cable anti-dislocation structure according to claim 1, characterized in that: The power cord binding assembly (6) comprises a threading ring (601) and a clamping seat (602); the threading ring (601) is a plastic ring structure with an inner diameter larger than the diameter of the power cord, and one side of the outer wall of the threading ring (601) is fixedly connected to an arc-shaped clamping seat (602) adapted to the outer wall of the top buckle ring (2) and the outer wall of the side buckle ring (3).

7. The automatic bidirectional integrated plug cable anti-dislocation structure according to claim 6, characterized in that: The power cord binding assembly (6) further comprises a fixing hole (603); the fixing hole (603) is provided on the fixing base (602), and fixing heads (8) adapted to the fixing hole (603) and having a butt head at the end are fixedly connected to the outer wall of the top buckle ring (2) and the outer wall of the side buckle ring (3).

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